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Max Planck Institutes

Article

New R&D: ammonia as a green steel enabler

Researchers at the Max Planck Institute report that ammonia was successfully used as a reductant to convert iron ore to sponge iron in a laboratory-scale reactor. The direct use of ammonia effectively offers a “process shortcut” in green steelmaking, removing the need for ammonia cracking or the extra costs associated with the transport & storage of hydrogen.

Article

3rd generation ammonia synthesis: new catalysts & production pathways

We look at four new developments this week:

1. A team from DTU Energy and the Dalian Institute of Chemical Physics have uncovered a new class of alternative catalysts for mild condition ammonia synthesis. The ternary ruthenium complex hydrides Li4RuH6 and Ba2RuH6 avoid the energy-intensive pathway of nitrogen dissociation in a "synergistic" manner.

2. A team from the Korea Institute of Machinery and Materials reported a highly selective (95%) plasma ammonia synthesis method.

3. A team from Delft University of Technology has presented an present an "unconventional electrochemical design" that physically separates hydrogen and dinitrogen activation sites.

4. A team at the Max Planck Institute for Coal Research has demonstrated a new mechanochemical ammonia synthesis system that operates at room temperature and pressures as low as 1 bar.

Article

New R&D: ammonia as a green steel enabler

Researchers at the Max Planck Institute report that ammonia was successfully used as a reductant to convert iron ore to sponge iron in a laboratory-scale reactor. The direct use of ammonia effectively offers a “process shortcut” in green steelmaking, removing the need for ammonia cracking or the extra costs associated with the transport & storage of hydrogen.

Article

3rd generation ammonia synthesis: new catalysts & production pathways

We look at four new developments this week:

1. A team from DTU Energy and the Dalian Institute of Chemical Physics have uncovered a new class of alternative catalysts for mild condition ammonia synthesis. The ternary ruthenium complex hydrides Li4RuH6 and Ba2RuH6 avoid the energy-intensive pathway of nitrogen dissociation in a "synergistic" manner.

2. A team from the Korea Institute of Machinery and Materials reported a highly selective (95%) plasma ammonia synthesis method.

3. A team from Delft University of Technology has presented an present an "unconventional electrochemical design" that physically separates hydrogen and dinitrogen activation sites.

4. A team at the Max Planck Institute for Coal Research has demonstrated a new mechanochemical ammonia synthesis system that operates at room temperature and pressures as low as 1 bar.